The micro-environment in this study refers to the air space and enviro的简体中文翻译

The micro-environment in this study

The micro-environment in this study refers to the air space and environment around a person that directly impacts their thermal sensation. This study aims at evaluating the performance of a newly developed micro-environmental control system (μX) designed to cool the occupants locally for thermal comfort when the temperature in the ambient unoccupied space is raised from 23.9 °C to 26.1 °C in summer to reduce the HVAC cooling load. The μX was tested first with a 20-segment thermal manikin wearing summer clothing in a full-scale stainless-steel chamber and then with human participants in a climate chamber. Results show that the heat loss by the manikin increased with the distance between the μX air supply diffuser and the manikin and decreased with the clothing insulation. Changing the air delivery angle from 0° to 10° from the horizontal direction resulted in additional heat loss from the manikin. The heat loss from the manikin was found to be positively correlated with the supply air flow rate, but negatively correlated with the supply air temperature. However, the overall cooling efficiency dramatically increased with the supply air temperature. Overall, both the manikin test and the human participant test showed that the μX was able to cool the occupant in a room of expanded temperature set-point, and the Clothing Independent Thermal Comfort Model gave a consistent prediction with the human participant test. However, slight thermal discomfort was reported when the μX was used due to the effect of clothing, season, metabolic rate and local draught.
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The micro-environment in this study refers to the air space and environment around a person that directly impacts their thermal sensation. This study aims at evaluating the performance of a newly developed micro-environmental control system (μX) designed to cool the occupants locally for thermal comfort when the temperature in the ambient unoccupied space is raised from 23.9 °C to 26.1 °C in summer to reduce the HVAC cooling load. The μX was tested first with a 20-segment thermal manikin wearing summer clothing in a full-scale stainless-steel chamber and then with human participants in a climate chamber. Results show that the heat loss by the manikin increased with the distance between the μX air supply diffuser and the manikin and decreased with the clothing insulation. Changing the air delivery angle from 0° to 10° from the horizontal direction resulted in additional heat loss from the manikin. The heat loss from the manikin was found to be positively correlated with the supply air flow rate, but negatively correlated with the supply air temperature. However, the overall cooling efficiency dramatically increased with the supply air temperature. Overall, both the manikin test and the human participant test showed that the μX was able to cool the occupant in a room of expanded temperature set-point, and the Clothing Independent Thermal Comfort Model gave a consistent prediction with the human participant test. However, slight thermal discomfort was reported when the μX was used due to the effect of clothing, season, metabolic rate and local draught.
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本研究中的微环境是指直接影响人的热感觉的空气空间和环境。本研究旨在评估一种新开发的微环境控制系统(μX)的性能,该系统设计用于在夏季将周围未占用空间的温度从23.9°C提高到26.1°C,以降低HVAC的冷负荷,从而为居住者提供局部降温,以获得热舒适性。μX首先在一个全尺寸的不锈钢室内用一个穿着夏季服装的20段热人体模型进行测试,然后在气候室中对人体参与者进行测试。结果表明,人体模型的热损失随送风扩压器与人体模型之间的距离增加而增加,随着服装隔热层的增加而减小。从水平方向将送风角度从0°更改为10°会导致人体模型的额外热量损失。人体模型的热损失与送风流量呈正相关,与送风温度呈负相关。但是,随着送风温度的升高,整体冷却效率显著提高。总体而言,人体模型试验和人体参与者试验均表明μX能够在温度设定值扩大的房间内对乘员进行冷却,而服装无关的热舒适模型与人体参与者试验的预测结果一致。然而,当使用μX时,由于衣服、季节、代谢率和局部通风的影响,出现轻微的热不适。<br>
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